Innovation in Educational Institutions: a brief proposal
Dr Athba AlQahtani
Professional Biography of Dr Athba
Table of Contents
What does modernisation mean in this context?
Practical approaches for forming international collaborations
1. Faculty-to-Faculty Micro-Collaborations
2. Virtual Student Exchanges / Projects
3. Global Visiting Speaker Program
4. Pilot Co-Branded Short Programs
5. Build an International Advisory Board
Phase 2: Engagement activities
1. Joint Research & Publications
2. Shared Online Courses & Classrooms
3. Joint Workshops / Hackathons / Competitions
4. Letters of Intent (LoI) Instead of Full MOU
5. Pilot Exchange or Mentorship Programs
Phase 3: Formalize (high impact, long-term partnerships)
1. Selective MOUs / Collaboration Agreements
2. Joint Short-Degree Programs / Certificates
4. Global Branding & Recruitment
Recommendations for a global accreditation portfolio
Industry Partnerships (Nationally & Internationally)
Practical approaches for successful industry partnerships
1. Design a “Win–Win Value Proposal” (why should THEY care?)
2. Build 4 formal partnership tracks (not one general MOU)
a. Academic–Industry Curriculum Partnerships
b. Research & Innovation Partnerships
c. Employment & Internship Pipelines
d. Commercialization & Startups
3. International Industry Partnerships (how to attract them)
What a Saudi university can offer internationally
4. Legal & Financial Models must be clearly structured
What actually happens inside the university (operation-wise): an example
How 3D printers work for Aerospace
How 3D printers work for Car Parts
How 3D printers work for Drones
How 3D printers work for Medical
Bridging the gap between academia and industry
Practical approaches for curriculum development
1. AI-enhanced curriculum development
2. Establishing a digital innovation ecosystem
3. Digital sandboxes for faculty to experiment with AI in teaching
Free Career Support for Students
Practical approaches for careers services
1. Integrate careers service into Blackboard/ university internal portal
3. Use Blackboard as a tool for delivery
4. Keep a record of soft, transferable skills learnt
Key components and requirements
Additional point of recognition
Staff Training & Development Plan
Practical approaches for staff training & development
1. Discipline-specific skill development
2. Teaching enhancement (practical and immediately applicable)
3. Industry engagement & real projects
4. International collaboration training
6. Certification pathways (fully practical)
7. Annual Faculty Development Calendar (realistic and tailored to faculty needs)
Introduction
This proposal is designed to be clear, engaging, and interactive, supported by illustrations and real-life examples rather than lengthy text. This electronic, interactive version of the proposal was prepared to make the experience more dynamic and enjoyable.
At its core, the transformation our educational system needs can be captured in a single word: modernisation.
What does modernisation mean in this context?
It means reshaping our educational ecosystem through AI-driven tools, digital innovation, and globally recognised best practices, ensuring the institution remains competitive, future-ready, and aligned with international standards.
How can this be achieved?
Expanding international collaborations to broaden global exposure and academic excellence.
Strengthening accreditation pathways across all stages of institutional development.
Building strong industry partnerships, including national and international placement years and corporate engagement.
Reviewing and updating existing curricula to ensure relevance, innovation, and alignment with emerging fields.
Investing in staff development programmes focused on digital skills, AI adoption, and modern tutoring.
Providing priority employment opportunities for graduates within partner companies, reinforcing the value of our programmes and industry relationships.
International Collaborations
International collaborations are excellent way to enhance teaching, research, and innovation through virtual exchanges, joint projects, and global faculty networks. These initiatives provide cross-border learning experiences, expand access to cutting-edge knowledge, and lay the foundation for long-term strategic partnerships.
A few examples of potential international collaborators:
University of Bristol, UK
University of Newcastle, UK
University of Leeds, UK
The Picower Institute for Learning and Memory, USA
Shandong Science and Technology Innovation Centre, China
Peking University, China
Dalian University, China
HSE University – St. Petersburg, Russia
iTMO university, Russia
Practical approaches for forming international collaborations
Below is a practical, stepwise internationalisation strategy for the universitythat’s low-risk, scalable, and doesn’t require heavy legal/ financial commitments upfront.
Phase 1: Exploration
Goal: Build visibility, networks, and credibility internationally without contracts or MOUs.
Key Actions:
Faculty-to-Faculty Micro-Collaborations
Online guest lectures, seminars, joint webinars.
Research “reading clubs” or mini-projects.
Example: Invite 1–2 international professors per semester to co-host a 1-hour AI lecture or discussion. The key here is to maintain this connection and solidify it over the years.
Virtual Student Exchanges / Projects
Short-term collaborative projects, hackathons, competitions.
Focus on innovation, AI, and entrepreneurship.
Students stay enrolled at local university, no transcript or degree changes.
Global Visiting Speaker Program
Launch a university-branded series: e.g. “Global Voices in Innovation & AI”.
Invite 3–5 international academics per year.
Pilot Co-Branded Short Programs
Non-degree programs like bootcamps, online courses, or research skills workshops.
Co-brand with a partner university in marketing materials only.
Build an International Advisory Board
5–10 respected global academics or industry leaders.
Advise programs, mentor students, review initiatives.
Phase 2: Engagement activities
Goal: Strengthen relationships, joint initiatives, and student/faculty mobility.
Key Actions:
Joint Research & Publications
Faculty collaborate on papers, grants, preprints.
Data sharing, joint experimental designs, virtual labs.
Joint Workshops / Hackathons / Competitions
AI innovation challenges, bioinformatics projects, entrepreneurship sprints.
Can be hybrid (virtual + in-person).
Letters of Intent (LoI) Instead of Full MOU
Non-binding statements of interest.
Can cover areas like faculty exchanges, short programs, research collaboration.
Pilot Exchange or Mentorship Programs
Virtual or short-term faculty/student exchanges (1–4 weeks).
Focus on knowledge sharing rather than credit transfer.
Phase 3: Formalize (high impact, long-term partnerships)
Goal: Establish long-term strategic partnerships with international institutions.
Key Actions:
Selective MOUs / Collaboration Agreements
Only with institutions where pilots have proven value.
Covers joint programs, faculty mobility, joint research grants.
Joint Short-Degree Programs / Certificates
Focus on niche areas (AI, Health Innovation, Engineering, Entrepreneurship).
Could lead to co-branded certificate programs or micro-credentials.
Strategic Global Alliances
Consortium memberships (AI, Medical Innovation, Engineering networks).
Co-hosting conferences, hackathons, or global summer schools.
Global Branding & Recruitment
Highlight international collaboration on the university website and social media.
Use alumni and student ambassadors to promote programs abroad.
Meaningful international collaborations are closely tied to the strength of a university’s global accreditations. To expand the university’s international partnerships and ensure recognition by leading institutions worldwide, it is essential to continue strengthening and pursuing internationally respected accreditation standards.
Accreditations
Depending on the nature of institution, a public university offering blended/online and on-campus education across computing, informatics, business, health sciences, etc., international/global accreditations would be sensible to apply for, to boost global recognition & competitiveness:
For computing / informatics / tech-related degrees: ABET accreditation would give international validation of technical/engineering education quality — useful for students seeking global jobs or postgraduate education abroad.
If the institution offers business or management degrees (or plans to), international business-school accreditation would raise their global standing, help graduates’ employability, and increase attractiveness to international students. AACSB International (or EQUIS / other business-school accreditations) would be good options.
Program-specific accreditations for healthcare/health informatics (e.g. aligned with global medical/health-informatics accreditation bodies). For Health-Informatics or health-related programs: having international accreditation (where relevant) improves recognition abroad, especially for students wanting to work internationally or continue postgraduate studies overseas.
International accreditation for online/distance-learning institutions (e.g. global distance-education quality agencies) beyond Quality Matters (QM), especially recognized in higher-education rankings. An example would be THE RANKING entry.
Re-accreditation / renewal of ISO 9001 (or higher-quality management standards) periodically + possibly certifications for educational management or e-learning systems (like ISO 21001:2018 — Management Systems for Educational Organizations).
In short, an ideal global accreditation portfolio should look like the following:
| Purpose | Best accreditation |
|---|---|
| IT & engineering | ABET |
| Business & management | AACSB |
| Online learning / reputation ranking | Quality Matters (QM)/ THE (Times Higher Education) ranking |
| Institutional governance | ISO 21001 |
| Cybersecurity/ AI | EC-Council / AWS / NVIDIA |
| International business prestige | EQUIS / AMBA |
| International digital university network | ICDE (membership for global digital university recognition) |
| European quality label for open education | OpenupEd |
Recommendations for a global accreditation portfolio
1. ISO 21001
Reasons: ISO 21001 = “accreditation engine” for the next 10 years.
Strengthens governance, leadership, quality assurance
Supports ALL other accreditations
Is low political risk
Is fast (8–14 months)
Is relatively low cost
Works perfectly with ABET, AACSB, OpenupEd, THE Rankings
Directly supports Vision 2030 institutional maturity goals
Without it, all other accreditations become:
Slower
Risker
More expensive
More likely to fail peer-review
2. OpenupEd – European Digital University Quality Label (start parallel to ISO 21001)
Reasons:
Institution is already structurally aligned
Perfect fit for a digital identity
Huge international branding impact
Low-cost vs ABET/AACSB
Very fast ROI
Supports:
EU partnerships
Erasmus-style collaborations
Micro-credentials
Lifelong learning
Strategic outcome:
Institution becomes the first OpenupEd-aligned digital university in the Gulf
Why OpenupEd is PERFECT for the Saudi institution?
It becomes:
The first OpenupEd-aligned university in the Gulf
Instantly recognized in:
Europe
Erasmus+ digital exchange programs
EU-funded education collaborations
It strengthens:
International student mobility
Micro-credential recognition
Dual degrees with EU distance universities
Branding as a global digital university
It directly supports:
Vision 2030 – Digital Transformation
Human Capability Development Program
Lifelong Learning Strategy
How much does OpenupEd cost?
Rough estimates (based on EU QA bodies):
| Item | Estimated Cost |
|---|---|
| Eligibility review | $5,000 – $10,000 |
| External audit & evaluation | $20,000 – $40,000 |
| Travel, panel, documentation | $10,000 – $20,000 |
| Total Estimate | $35,000 – $70,000 USD |
This makes it:
Much cheaper than AACSB
Much cheaper than ABET
Extremely high ROI for digital universities
Industry Partnerships (Nationally & Internationally)
One of the hardest and most valuable pillars in modern universities is to form beneficial international industry partnerships.
Most universities fail because they:
Chase logos
Sign non-active MOUs
Don’t align partnerships with employability or national priorities
The institution needs to first define their dimensions of the partnership, for example:
| Dimension | Example |
|---|---|
| National priorities | AI, cybersecurity, fintech, health tech, logistics |
| Student employability | Software, data, business, engineering |
| Research commercialization | AI, energy, digital health |
| Online learning relevance | EdTech, cloud, content platforms |
Below is an example of a Tiered Industry Target List:
Tier 1 (Strategic Employers):
Google, IBM, Huawei, Aramco Digital, Alibaba CloudTier 2 (Regional Employers & Startups):
STC, Noon, Tamara, Careem, BYD, Tencent CloudTier 3 (Research & Innovation Partners):
NVIDIA, Siemens, AWS Academy, Coursera, Udacity
Practical approaches for successful industry partnerships
The following outlines a set of practical, actionable steps for the real-life implementation and establishment of robust Industry Partnerships at both the national and international levels.
Design a “Win–Win Value Proposal” (why should THEY care?)
Companies only care about 3 things:
Talent pipeline
R&D & innovation
Market expansion / branding
Therefore, the partnership offer must include at least 2 of the following:
| Institution Gives | Industry Gives |
|---|---|
| Intern-ready students | Paid internships |
| Co-designed curriculum | Certified courses |
| Applied research teams | Real datasets |
| Corporate training | Equipment / funding |
| Regional branding | Hiring priority |
If the above elements are not clear → partnership will fail!
Build 4 formal partnership tracks (not one general MOU)
Every serious institution separates partnerships into four contract types:
Academic–Industry Curriculum Partnerships
Purpose: Employable graduates
Deliverables:
Industry-designed modules
Company-certified courses
Guest instructors
Career-linked assessments
Examples:
“Cloud Computing – AWS Certified Track”
“Cybersecurity – Huawei Academy”
Research & Innovation Partnerships
Purpose: Rankings + patents + funding
Note: This is highly dependent on how strong the Saudi institution in this matter. If its ranking is lacking, it might be better to start with other tracks first.
Deliverables:
Joint research chairs
Industry-funded PhDs
Applied AI & health labs
Co-published papers
This directly boosts:
QS rankings
Global research reputation
Patents
Employment & Internship Pipelines
Purpose: Graduate employability.
Deliverables:
Guaranteed internship slots
Fast-track hiring interviews
Co-branded graduate programs
Sponsored competitions
Institutions with this system reach:
85–95% graduate employment in 6 months
Commercialization & Startups
Purpose: Revenue + entrepreneurship + national impact
Deliverables:
Joint incubators
Corporate venture funds
IP licensing
Student startup acquisitions
This is where:
University makes money
Students become founders
Industry stays loyal
International Industry Partnerships (how to attract them)
Typically, we do not attract global companies by:
- Saying “we want cooperation”
We attract them by:
- Offering regional gateways + talent + digital scale
What a Saudi university can offer internationally
Access to Gulf digital markets
Arabic-speaking tech graduates
Large online learner base
Government-aligned projects
Vision 2030 funding pipeline
Legal & Financial Models must be clearly structured
For example:
| Model | Who Pays | Who Benefits |
|---|---|---|
| Sponsored Lab | Company | Research output |
| Workforce Academy | Government + company | Skilled employees |
| Revenue Share Programs | Students | University + company |
| IP Licensing | Company | University royalties |
Why most universities fail in this aspect?
They sign 100 MOUs → use 5 only
No one manages the relationship
No measurable student outcomes
No financial return
No long-term contracts
No industry on curriculum committees
Here’s what would be recommended to prioritize:
Tier 1 Targets
AWS Academy
Huawei ICT Academy
IBM SkillsBuild
Microsoft Learn for Educators
Tier 2 Targets
Aramco Digital
STC Cloud
NEOM Tech
Saudi FinTechs
Mandatory Outcomes:
Every IT/AI student → industry certification
Every final-year student → paid internship
Every master’s → applied industry project
At least 3 industry-funded research labs
What actually happens inside the university (operation-wise): an example
The students would:
Study:
Data structures
AI theory
Networks
Databases
Ethics
Cyber law
→ Taught and assessed by faculty members
Plus they also:
Train on AWS Cloud
Practice on Huawei networks
Use Microsoft Azure
→ Certified by the company
So, the student graduates with:
University Degree
Industry Certificate
3D Printing is an example of a futuristic industry field that is highly recommended to be considered
This innovative technology is now widely utilized across multiple sectors, including healthcare, engineering, manufacturing, architecture, and education (see figure below). 3D printing is a sophisticated process that requires comprehensive knowledge of 3D design, material properties, and the structural components of specific product parts. Successful application of this technology involves intensive training in specialized design software, precision modelling, and an understanding of printing parameters, materials selection, and post-processing techniques to ensure functional and high-quality outputs.
If the institution pioneers the integration of 3D printing training into its academic programs, its students will be positioned among the leading innovators and technical frontiers in the region.
For a start, the students will have to learn basics of 3D design components and thoroughly study product components in order to be able to copy it accurately. Then this project can further developed into full scale printing at an industrial level.
How 3D printers work for Aerospace
A range of popular 3D printing materials are suitable for the aerospace industry because of quicker delivery of printed parts. The 3D printer is used to produce high detail and smooth models of aerospace designs.
How 3D printers work for Car Parts
Moreover, production of component parts in the automobile industry is extremely complex. Vehicles are made of thousands of different parts that can be created with a 3D printer for car parts.
How 3D printers work for Drones
Drone parts such as the propellers, frame, antenna mounts, the prop protectors, landing gear, etc can all be printed with the drone 3D printer. You can carry out rapid prototyping at the same time and produce a finished product while saving printing material.
How 3D printers work for Medical
Medical 3D printers are used in the healthcare field because of its potential to improve treatment for certain health conditions.
Doctors can use 3D printing in medical field to make products that specifically match a patient’s anatomy.
3D printing is not limited to planning surgeries or producing customized dental restorations such as crowns, 3D printing in medicine has enabled the production of customized prosthetic limbs, cranial implants or orthopaedic implants.
Unlike traditional methods, in which medical parts are created by shaping raw materials into final form through carving or moulding, which oftentimes are imperfect.
3D printing in medicine is an additive manufacturing technique that creates 3D objects by successive layers.
Medical 3D printer is affordable, allows you to print complex parts and performs a noiseless operation.
Do hospitals use 3D printers?
Yes, hospitals use medical 3D printers. 3D printing has been used to print organs from a patient’s own cells. This means that patients may no longer have to wait a long time for donors in the future. In the past, hospitals implanted structures into patients made by hands. 3D printing has drastically improved this process.
3D printing is used for the development of new surgical cutting and drill guides, prosthetics as well as the creation of patient-specific replicas of bones, organs, and blood vessels. Recent advances of 3D printing in healthcare have led to lighter, stronger, and safer products, reduced lead times, and lower costs. Custom parts can be tailored to each individual.
Bridging the gap between academia and industry
In the longer term, this 3D printing initiative may open opportunities for exploratory collaboration with the Ministry of Industry, Ministry/ Clusters of Health, and other relevant sectors to support innovation and the potential promotion of locally developed products by local workforce.
Curriculum Development
Curriculum development plays a critical role in ensuring that academic programs remain globally competitive, industry-aligned, and responsive to emerging skills and future workforce needs.
What happens if curriculum remains the same?
Curriculum development is critical to ensure that a local university yeilds graduates who are competent, confident, and ready to contribute meaningfully to the workforce. Without rigorous and forward-looking curriculum design, we risk producing graduates who are ill-prepared, uncertain about how to apply their knowledge, and unable to meet the demands of the job market, transforming our graduates into a societal and economic burden rather than valuable contributors.
Practical approaches for curriculum development
AI-enhanced curriculum development
Integrate artificial intelligence (AI) literacy across all faculties (not just STEM).
Create micro-credentials in:
AI for healthcare.
AI ethics & governance.
Data science foundations.
Generative AI for students and researchers.
Introduce AI-based assessments and adaptive learning pathways.
Outcome:
This positions the institution as a leader in next-generation digital education.
Establishing a digital innovation ecosystem
We can guide students/ staff members into a building designated for:
A dedicated AI Innovation Hub.
Cross-disciplinary digital labs.
Student innovation clusters for projects using Python, R and machine learning.
Digital sandboxes for faculty to experiment with AI in teaching
Digital sandbox refers to safe, controlled digital environments where teachers or faculty members can try out AI tools and applications in education without affecting real students, grades, or official course content.
For example:
Scenario: Using AI to create interactive quiz questions for a course.
Sandbox setup: Faculty member creates a private course space or document not connected to actual students.
Experiment with AI: Asks the AI to generate multiple-choice or true/false questions based on a lecture topic.
Test and tweak: Faculty member reviews the questions, modify them, or try different AI prompts to improve clarity or difficulty, without ever showing them to real students yet.
Outcome: Faculty member learns how AI can help create content, understand its limitations, and decides whether these questions could be used in the real classroom.
Free Career Support for Students
Concept
Providing free career support services to students ensures that all learners, regardless of location, have access to guidance for career planning, skill development, and job market readiness. This enhances the value of the institution’s site/online programs and helps graduates’ transition confidently into professional roles.
Key Components:
Career Counselling & Mentoring: Virtual sessions to help students identify strengths, set career goals, and map learning outcomes to industry requirements.
Workshops & Webinars: CV writing, interview preparation, LinkedIn optimization, and networking strategies.
Job & Internship Matching: Partnerships with local and international companies to connect students with relevant opportunities.
Skill Development Resources: Access to micro-courses, certifications, and soft skills training to complement online curricula.
Alumni Network Integration: Connect students with graduates working in relevant fields for mentorship and guidance.
Practical approaches for careers services
Integrate careers service into Blackboard/ university internal portal
Book an online appointment with a career’s advisor.
Enrol in courses.
Embed course links or videos.
Embed job boards or internship opportunities.
AI tools: e.g. career-focused AI for CV suggestions and interview practice (linked via Blackboard).
Faculty/ staff role
Assign staff or mentors to monitor forums, reply to questions, and schedule sessions.
Rotate responsibilities to ensure timely support.
Add a range of courses (specialised and transferable skills) to Blackboard for students to enrol themselves in. Ideally, this is done at the beginning of the year, and courses should span for the whole duration of academic year.
Use Blackboard as a tool for delivery
a) Announcements & Notifications
- Notify students about upcoming webinars, new job postings, deadlines for applications, or mentoring opportunities.
b) Discussion Boards / Forums
Students can ask career questions, interact with mentors, or share experiences.
Example forums: “CV Feedback,” “Interview Prep,” “Career Q&A.”
c) Virtual Meetings / Collaborate Ultra
Schedule live mentoring sessions, career counselling, and workshops.
Record sessions for students who cannot attend live.
d) File & Resource Sharing
Upload templates: CV, cover letters, portfolios.
Share links to online certifications, courses, or skill-building resources.
e) Assignments / Self-Reflection Tasks
Students submit career plans, resumes, or personal development reflections for mentor feedback.
Can be optional or formative (not graded).
Keep a record of soft, transferable skills learnt
This can act as a progress monitoring system.
If the student attended a workshop, it will be recorded under the relevant skill on their blackboard, which could be printed out as evidence after graduation.
Reporting and Tracking
Use Blackboard analytics to monitor:
Student logins
Participation in discussion boards
Webinar attendance
Downloads of resources
This helps measure engagement and identify students needing extra support.
Achievements tracking
Add badges or stamps for participation (e.g., completing a CV workshop or attending a webinar).
Motivates students to engage with career support content.
University-Specific Award
Overview
The university Award (call it by name of university e.g. AAQ Award) would be a voluntary recognition scheme for students who engage in meaningful extra‑curricular activities, professional development, community service, internships, and other employability-building experiences in addition to their coursework.
It aims to formally acknowledge students’ real-world skills and experiences, giving them a competitive edge in the job market, and enhancing the university’s reputation as a university that produces well-rounded, employable graduates.
The Award would be open to all students, across any major or year of study.
Why it’s worth doing
Improves students’ employability and helps bridge gap between academic knowledge and real-world skills.
Enhances the university’s attractiveness to prospective students (they see value beyond just coursework).
Builds stronger ties between the university and industry, community, and other partners through internships, volunteering, and projects.
Encourages a culture of initiative, leadership, and self-development among students.
Provides a structured, recognized way to value extra‑curricular engagement — better than informal CV claims.
Key components and requirements
To earn the Award, a student would need to complete a set of required components. A possible framework:
| Component | Description / Requirement |
|---|---|
| Practical Experience Hours | e.g., ≥ 50–70 hours of work experience, internship, volunteer work, part‑time job, or community service. |
| Skill Development Workshops / Courses | Attend a number (e.g., 3 - 5) of workshops or short courses on soft skills, employability, career planning, digital skills, etc. |
| Self‑Assessment / Skills Audit | At start and end: self-evaluate skills (communication, teamwork, leadership etc.), to monitor growth something like the “My Skills check”. |
| Reflective Report or Portfolio | Submit a short report or portfolio summarizing the experiences, skills acquired, and lessons learned. Reflect on how these prepare you for future career or studies. |
| Optional Advanced Recognition (“Outstanding Award”) | For students who go above-and-beyond: outstanding leadership, innovation, social impact, entrepreneurship, etc. could be recognised with a special certificate or honour stamp. |
Additional point of recognition
The Award could be formally recognised by partner industries, ensuring that students who achieve the Award gain a credential that is valued by employers and aligned with current workforce needs. Industry partners could also contribute to shaping the award’s skill framework and will endorse the certificate as evidence of workplace-ready competencies in digital technologies, cloud platforms, and innovation.
Staff Training & Development Plan
Purpose
The purpose of this training plan is to strengthen the university’s capacity for international engagement by developing a highly skilled team capable of managing global partnerships, supporting local and international students as well as faculty, and driving cross-border initiatives. The vision is to create a professional, agile, and globally minded department that represents the university on the international stage with confidence and competence.
Strategic Objectives:
Enhance global communication and partnership-building skills among staff.
Improve operational efficiency in managing international agreements, mobility programs, and cross-institutional collaboration.
Strengthen cultural intelligence and global awareness across the department.
Develop digital competencies to support virtual exchanges, online collaboration, and international program delivery.
Ensure professional excellence in managing documentation, reporting, compliance, and accreditation needs.
Practical approaches for staff training & development
Discipline-specific skill development
Enable faculty to stay updated with global innovations aligned to university’s specialities. A list of courses could be compiled that are disciple-specific for each faculty member. For instance:
College of Computing & Informatics
AI for Teaching & Research Workshops (hands-on labs using Python, AWS, Azure)
Blockchain Applications in Business & Healthcare (practical projects)
Cybersecurity in Digital Education training
College of Administrative & Financial Sciences
Data-Driven Decision-Making using Power BI and Tableau
Digital Economy & FinTech short program with banks/fintech regulators
Case-based teaching methods aligned with AACSB/EFMD standards
College of Health Sciences
Digital Health Tools (telemedicine, AI diagnosis support tools)
Research skills: systematic reviews, clinical data analysis, bioinformatics
Simulation-based teaching using virtual labs
College of Science & Theoretical Studies
Digital Pedagogy: interactive content creation, digital humanities tools
Modern assessment strategies for large online classes
Applied research writing workshops
College of E-Learning & Distance Education
Advanced LMS Development (Blackboard Ultra, Moodle plugins)
Designing digital sandboxes for faculty
AI-enabled instructional design
Teaching enhancement (practical and immediately applicable)
Hands-on training activities
Micro-teaching sessions where faculty practice teaching with AI tools
Peer-review teaching clinics (faculty observe each other’s classes)
Digital course redesign workshops (convert one course into a hybrid/AI-enhanced model)
Industry engagement & real projects
Give faculty real exposure to the sectors related to their disciplines.
Examples:
Computing faculty complete a short externship with a tech company (Huawei, AWS, STC).
Business faculty visit local SMEs to study digital transformation gaps.
Health informatics faculty collaborate with digital health centres for applied research.
E-learning faculty co-design a national-level online course in partnership with a government entity.
International collaboration training
Practical, low-legal solutions a faculty can immediately use:
Virtual exchange teaching: 2 - 4 week teaching collaboration with partner universities.
Joint research mentorship: co-supervise student projects with an international academic.
Global classroom weeks: one lecture per semester delivered by a partner university professor.
Faculty participation in short international schools (online if budget is limited).
Research capacity building
Aligned to the university’s strategic areas.
Workshops & Labs
Grant-writing bootcamps
How to publish in top journals
Applied data analytics using R & Python
AI in academic research (practical experiments, not theory)
Mentorship System
Junior faculty paired with senior researchers
Monthly check-in meetings focusing on real deliverables (manuscripts, proposals)
Certification pathways (fully practical)
Computing Faculty
AWS Academy Cloud Practitioner / Architect
Huawei HCIA–AI / HCIA–Cloud
Microsoft Azure Fundamentals
Business Faculty
Data analytics certification
Project management micro-credentials
Health Informatics Faculty
- Digital health & health informatics micro-certifications
E-Learning Faculty
- Instructional design certifications (ATD, Coursera ID, Blackboard certificates)
The university becomes a certification hub → students’ benefit → faculty credibility increases.
Annual Faculty Development Calendar (realistic and tailored to faculty needs)
Example:
| Quarter | Activity | Output |
|---|---|---|
| Q1 | Digital teaching bootcamp | Updated course content |
| Q2 | Industry externships | Industry projects |
| Q3 | Research workshops | Draft manuscript |
| Q4 | International collaboration activities | Virtual guest lectures |
Professional Biography of Dr Athba
I consider myself an international soul with extensive professional experience across the United Kingdom, Saudi Arabia and China. Having lived most of my life abroad, my academic and professional qualifications are rooted in international institutions and global environments. My career has consistently centred around global collaboration, innovation development, and strategic engagement with high-level international institutions. I have worked closely with research hospitals, universities, industry partners, and government bodies, allowing me to build a deep understanding of how cross-border partnerships drive technological innovation and advancement.
Throughout my roles in China, Saudi Arabia, and the UK, I have led joint research initiatives, coordinated international programs, and built sustainable, long-term strategic relationships with global institutions. My work spans academic innovation ecosystems, cross-cultural negotiations, and the facilitation of collaborative projects between Asia, the Middle East, and Europe. I speak Arabic and English fluently and hold practical working knowledge of Mandarin, which enables me to communicate effectively and confidently across multicultural settings and emerging international markets.
I bring strong analytical and organizational capabilities, a proactive mindset, and a talent for identifying and cultivating high-value opportunities for innovation and international cooperation. My ambition is to contribute to innovation by expanding global networks, promoting knowledge exchange, and building transformative partnerships that support the institution’s strategic mission and enhance its global impact.